Graphical identification of spatio-temporal chaos. - Arun V. Holden; Alexander V. Panfilov (Comput. Graph., 1991)

Dynamics of Dissipative Structures in Reaction-Diffusion Equations. - Alexander V. Panfilov; James P. Keener (SIAM J. Appl. Math., 1995)

Spiral flames. - Alexander V. Panfilov; Alvin Bayliss; Bernard J. Matkowsky (Appl. Math. Lett., 2003)

Reentry in an Anatomical Model of the Human Ventricles. - Olivier Bernus; Henri Verschelde; Alexander V. Panfilov (Int. J. Bifurc. Chaos, 2003)

Wave Propagation in Excitable Media with Randomly Distributed Obstacles. - Kirsten H. W. J. ten Tusscher; Alexander V. Panfilov (Multiscale Model. Simul., 2005)

Effect of Global Cardiac Ischemia on Human Ventricular Fibrillation: Insights from a Multi-scale Mechanistic Model of the Human Heart. - Ivan V. Kazbanov; Richard H. Clayton; Martyn P. Nash; Chris P. Bradley; David J. Paterson; Martin P. Hayward; Peter Taggart; Alexander V. Panfilov (PLoS Comput. Biol., 2014)

A Study of Early Afterdepolarizations in Human Ventricular Tissue. - Nele Vandersickel; Alexander V. Panfilov (CinC, 2015)

A Mathematical Model of Neonatal Rat Atrial Monolayers with Constitutively Active Acetylcholine-Mediated K+ Current. - Rupamanjari Majumder; Wanchana Jangsangthong; Iolanda Feola; Dirk L. Ypey; Daniël A. Pijnappels; Alexander V. Panfilov (PLoS Comput. Biol., 2016)

Mechano-Electric Feedbacks in a New Model of the Excitation-Contraction Coupling in Human Cardiomyocytes. - Nathalie Balakina-Vikulova; Olga Solovyova; Alexander V. Panfilov; Leonid B. Katsnelson (CinC, 2018)

Spiral Wave Drift Induced by High-Frequency Forcing. Parallel Simulation in the Luo-Rudy Anisotropic Model of Cardiac Tissue. - Timofei Epanchintsev; Sergei Pravdin; Alexander V. Panfilov (ICCS (1), 2018)

Dynamical anchoring of distant arrhythmia sources by fibrotic regions via restructuring of the activation pattern. - Nele Vandersickel; Masaya Watanabe; Qian Tao; Jan Fostier; Katja Zeppenfeld; Alexander V. Panfilov (PLoS Comput. Biol., 2018)

Electromechanical Coupling in Cardiomyocytes Depends on Its Electrotonic Interaction With Fibroblasts: Simulation Study. - Anastasia Bazhutina; Nathalie Balakina-Vikulova; Leonid B. Katsnelson; Alexander V. Panfilov; Olga Solovyova (CinC, 2019)

Simulation of spiral wave superseding in the Luo-Rudy anisotropic model of cardiac tissue with circular-shaped fibres. - Timofei Epanchintsev; Sergei Pravdin; Alexander V. Panfilov (J. Comput. Sci., 2019)

Self-organization of conducting pathways explains electrical wave propagation in cardiac tissues with high fraction of non-conducting cells. - Nina Kudryashova; Aygul Nizamieva; Valeriya Tsvelaya; Alexander V. Panfilov; Konstantin I. Agladze (PLoS Comput. Biol., 2019)

Directed graph mapping exceeds phase mapping in discriminating true and false rotors detected with a basket catheter in a complex in-silico excitation pattern. - Enid Van Nieuwenhuyse; Laura Martinez-Mateu; Javier Saiz; Alexander V. Panfilov; Nele Vandersickel (Comput. Biol. Medicine, 2021)

Directed Graph Mapping exceeds Phase Mapping for the detection of simulated 2D meandering rotors in fibrotic tissue with added noise. - Sebastiaan Lootens; Iris Janssens; Robin Van den Abeele; Eike M. Wülfers; Arthur S. Bezerra; Bjorn Verstraeten; Sander Hendrickx; Arstanbek Okenov; Timur Nezlobinsky; Alexander V. Panfilov; Nele Vandersickel (Comput. Biol. Medicine, 2024)